Theme 4: Skills and diversity

Goal: Australians from all backgrounds contribute to and benefit from the development and adoption of robotics and automation.

What we’ve heard

Australia has a highly skilled and diverse population that stands to benefit from robotics and automation. These technologies can open new career opportunities and allow workers to focus on higher value and more rewarding activities. Supporting Australian workers to adapt to technological change will need ongoing education, training and reskilling. Building a diverse workforce in the robotics and automation industry will further increase the size of our talent pool and include broader perspectives, improving innovation, creativity and problem-solving.

Building sustainable education pathways

While Australia has a highly skilled workforce, the growth of our robotics and broader technology ecosystem will benefit from an increase in STEM graduates at tertiary levels. To achieve this, we need to support quality STEM education at all levels of schooling. This would include fostering digital literacy and interest in STEM for children in early learning environments and primary school. 

Many primary schools offer robotics as part of their curriculum as an engaging way to generate student interest in problem-solving and other STEM skills. Using robots in classrooms can help to foster critical thinking, coding, engineering, mathematics and design skills. Engaging early is important for the future robotics and automation workforce to be representative of Australia’s diverse population. It is also important to provide support to schools and teachers so they have the knowledge and capacity to deliver robotics-related Australian Curriculum content.

After leaving school, pathways into robotics and automation careers are varied. There is a large list of accreditation and qualifications relevant to robotics and automation. However, understanding the skills needed and navigating the pathways through education and training and into the workforce can be difficult. This can limit the attraction to, and accessibility of, robotics and automation careers. 

Some roles require undergraduate or post-graduate degrees. Australian universities are highly regarded internationally for the quality of their STEM courses. This is especially true for aeronautical engineering, bio-engineering, civil and structural engineering, computer science, electronic engineering and materials science degrees. Other roles require trade or vocational skills that students can get through on-the-job training and vocational education and training (VET) courses. TAFEs and other vocational institutions are introducing relevant courses across Australia. We have already seen an increase in the popularity of robotics-related micro-credentials, vocational courses and qualifications. 

Degrees in mechatronics engineering – a hybrid of mechanical and electrical engineering – can be a direct pathway into robotics. However, STEM training and qualifications are not the only options for pursuing robotics and automation careers. Other disciplines including design, social sciences, law and ethics, play an important role in the responsible development and use of robotics and automation. Multidisciplinary robotics skills will create a workforce with diverse experiences and backgrounds that can lead to more varied perspectives and improve the quality of solutions. 

Full description follows.

Sample of skills and occupations in the robotics and automation ecosystem:

AI and computing skills: Data scientists, machine learning specialists.

Engineering skills: Mechanical engineers, electrical engineers, software engineers, bio-engineers, material scientists.

Non-STEM skills: Lawyers, ethicists, psychologists, designers, social scientists.

Implementation skills: Installation technicians, maintenance technicians, robotics equipment controllers, remote operations, data engineers.

Entrepreneurial and corporate skills: product development managers, project/change managers, business development managers, WHS officers.

For those already in the workforce, upskilling and reskilling pathways need to be accessible and available. Accessible pathways are vital so workers can develop the skills needed to work alongside robotics and automation technologies. Industry has an important role to play in this, alongside our education providers. Support for workers may involve training programs that focus on the skills and knowledge needed to work safely alongside robotics and automation, as well as through hands-on experience operating these technologies. 

In the mining and resources sector, for example, tailored courses are available to upskill and train staff in the use of robotics specific to their industry. This approach is not only giving workers the skills they need, but also a greater understanding of the benefits of adopting robotics and automation technologies in their work. Additionally, creating a supportive environment for workers, such as through cultural awareness, inclusion and safety measures, can help ensure that no one is left behind in the transition to more automated work environments. 

Attracting and retaining a diverse workforce

To improve the diversity of the robotics and automation workforce, industry, academia and government must create opportunities for under-represented groups. We can achieve this through targeted training and education programs, inclusive hiring practices and research-informed support. Marginalised groups in STEM fields include women, First Nations people, people with disability, older people, people from culturally and linguistically diverse backgrounds and LGBTIQA+ people. 

A report from the Office of the Chief Scientist shows that only 0.5% of Aboriginal and Torres Strait Islander people hold a STEM degree. This compares to 5.2% of people in the wider community (Office of the Chief Scientist 2020). In 2021, the proportion of women in STEM-qualified occupations was only 15% (DISR 2023b). This trend carries into the robotics industry, where women make up somewhere between 7% and 19% of robotics engineers (Department of Defence 2023). 

There are already several initiatives that support diversity in the robotics and automation industry. However, we need to do more so that the industry reflects, supports and benefits broader Australian society. Encouraging and supporting a diverse robotics workforce will help Australia combat domestic labour and skills shortages. It will also bring a range of perspectives, knowledge and understanding to the workforce. Research across industries shows that diversity in the workforce boosts innovation, creativity and problem-solving. While diverse workers should not be made primarily responsible for making their industry more inclusive, diversity in the workforce can encourage the development of inclusive and trustworthy technologies.

Case study: Robotics labs as a practical learning environment

Australian TAFEs are working with industry to develop and offer new pathways to robotics and automation jobs and preparing Australians for the workforce of the future. Both TAFE Queensland and South Metropolitan TAFE in Western Australia (WA) deliver accredited and non-accredited programs in robotics and automation to industry and students. 

In April 2018, WA’s South Metropolitan TAFE and the WA Government partnered with Rio Tinto to begin developing Australia’s first dedicated qualifications in automation. These qualifications will prepare West Australian students for mining jobs that use robotic and automation technologies. 

Through their specialist training facility, the Munster Campus at South Metropolitan TAFE offers a Certificate IV in Autonomous Control and Remote Operations and a Certificate II in Autonomous Workplace Operations to give students the capability to work alongside autonomous technologies. 

In 2019, BHP Mitsubishi Alliance engaged TAFE Queensland and Central Queensland University (CQUniversity) Australia to form the Queensland Future Skills Partnership. The partnership has delivered 10 new microcredentials, 12 skillsets and a Certificate II in Autonomous Technologies. Together, these programs aim to upskill the existing workforce and provide pathways for students into robotics and automation jobs of the future. They have been rolled out to more than 800 participants since 2021.

Several TAFE Queensland and CQUniversity Australia campuses offer these and other applied technology programs through their robotics labs. Other courses offered include a Certificate IV in Industrial Automation and Control and a Diploma of Applied Technologies.

These qualifications offered by South Metropolitan TAFE and TAFE Queensland seek to address Australia’s skills shortages in robotics-related trades and occupations while providing fulfilling opportunities for Australian workers.

Case study: Sparking creativity and critical thinking through robotics workshops

The Western Australian Robotics Playoffs (WARP) engage and educate 13 to 18-year-old high school students about robotics in industry through competitions. WARP also gives the industry a chance to nurture and encourage future robotics talent. WARP is a collaboration between:

  • WA’s Department of Primary Industries and Regional Development
  • Curtin University
  • Murdoch University
  • Macquarie University
  • International not-for-profit organization FIRST®.

Students who participate in WARP develop skills that are vital for future careers, such as critical thinking, communication, teamwork and resilience. In 2022, students participating in WARP designed and built robots to compete in 3-on-3 basketball-style games. Agriculture and AgTech industries also attended the event to showcase automation technologies in agriculture and promote career opportunities.

Two young people using remotes to control robots in an arena.
High school students competing in the Western Australian Robotics Playoffs. Credit: Western Australian Robotics Playoffs.

Case study: Attracting and retaining diverse talent in robotics careers

The Monash Nova Rover (MNR) is an award-winning student team that is designing and building the next generation of Mars and Lunar rovers. The team has 96 students with expertise in engineering, science, business, commerce, IT and design. 

In 2023, the team won the Australian University Rover Challenge for the third year in row. They also placed second at the University Rover Challenge, competing against 104 teams from around the world.

MNR has created a fair and inclusive environment that helps attract and retain diverse talent in STEM. MNR proudly attribute their success and achievements to their team’s diversity. 

In February 2023, the MNR team launched a pink rover called ‘Waratah’ to spark conversations about women in STEM. Their campaign is designed to start these conversations through 3 missions:

  • empower through education
  • bring visibility and foster engagement 
  • address barriers and bias.
  • A small pink four-wheeled rover robot in a rocky desert landscape.
    Pink rover ‘Waratah’ competing in the University Rover Challenge. Credit: Monash University. 

Case study: First Nations pathway to STEM careers

The Young Indigenous Women’s STEM Academy (the Academy) supports 600 First Nations women to study and work in STEM. CSIRO delivers the Academy in partnership with CareerTrackers. The Academy is funded by the National Indigenous Australians Agency.

The Academy supports young women from Year 8 onwards. It provides a culturally safe, inclusive practice and targeted long-term support. It aims to build a generation of First Nations female leaders, role models and game-changers in STEM fields. The Academy collaborates with organisations and STEM professionals to support these young women to participate in robotics-related initiatives, including the RoboRAVE Australia competition in 2022. 

RoboRAVE is a unique format in that participants can enter using any robotics platform, at any age, with any level of experience and from anywhere in the world. To compete, competitors needed to design, build and program a fully autonomous robot to complete a given task, such as:

  • climbing vertical surfaces 
  • battling in a sumo arena
  • negotiating mazes 
  • using vision technology to follow lines and track objects. 

By supporting a team of young First Nations women to compete, the Academy gives students valuable skills in programming, designing and problem-solving. These are all qualities of successful entrepreneurship in STEM fields.

Two young people in a carpeted arena. They are using a laptop to monitor a remote-controlled car-shaped robot on an unusually shaped track.
Students competing at RoboRAVE Australia. Credit: CSIRO.

Supporting government initiatives

The Australian Government has many initiatives underway to increase skills and diversity in Australian industries. A number of these initiatives support the government’s commitment to reach 1.2 million tech-related jobs by 2030.

  • Supporting a thriving, skilled and diverse STEM workforce by boosting STEM programs that focus on women and science to reach more diverse cohorts.
  • The National Strategy to Achieve Gender Equality guides whole of community action to make Australia one of the best countries in the world for a gender equal society.
  • The Employment White Paper provides a roadmap for Australia to improve access to digital skills, promote tech adoption and grow the digital workforce. This will allow the workforce to harness the opportunities of the economic transformation associated with digitalisation and emerging technologies.
  • The Australian Universities Accord pursues meaningful reform improve the quality, accessibility, affordability and sustainability of higher education.
  • The National Skills Agreement expands and transforms access to the VET sector, support quality training and implement reforms to address critical skills need.
  • Jobs and Skills Australia provides high quality data, analysis, and insights to better understand Australia’s skills and labour shortages across the economy.
  • Jobs and Skills Councils strengthen industry engagement in the VET sector including one dedicated for Finance, Technology and Business sectors with responsibility for undertaking skills and workforce planning to support and strengthen Australia’s digital and technology workforce.
  • The Migration Strategy simplifies visa application processes and ensures that migration programs complement the skills and capabilities of Australian workers.
  • Fee Free TAFE supports over 355,000 student enrolments nationally, of which over 10,900 were directly in the Technology and Digital Sector. 
  • The TAFE Technology Fund invests $50 million to modernise IT infrastructure, workshops, laboratories, and other facilities at TAFEs across Australia.
  • The Australian Skills Guarantee leverages government purchasing power to help address skills shortages and gender segregation in the building and construction and maintenance services and information and communications technology (ICT) sectors. 
  • The Building Women’s Careers program expands support for women training in male-dominated industries, including in STEM.

To improve our skills and diversity in the robotics ecosystem, the strategy has set the following objectives, outcomes and indicators of success.

Objectives

  • Strengthen pathways into robotics-related careers
  • Identify ways to better promote diversity and inclusion in robotics industries
  • Monitor and plan for workforce changes and skills development alongside greater adoption of robotics and automation technologies
  • Attract skilled migrants to increase our economic prosperity and security
  • Raise awareness of the skills needed to support a technologically advanced economy

Outcomes

  • Improved STEM and digital literacy build the skills Australians needed to develop, produce and adopt robots, and prepare for the future of work.
  • Improved diversity and inclusivity in the robotics ecosystem and workplaces to help address jobs and skills shortages and improve the innovation and inclusivity of robotics and automation solutions.
  • Clear pathways attract Australian and international talent to the Australian robotics industry and workforce.
  • A deeper understanding of Australia’s tech and robotics workforce allows for more targeted actions to boost strengths and address skills needs of the future.

Indicators of success

  • Increased number of robotics-related job vacancies in Australia.
  • Increased enrolments and completions in robotics-related STEM courses.
  • Increased number of robotics-related STEM training and education programs.
  • Increased skilled migration intake for robotics-related occupations.
  • Increased diversity in STEM course enrolments and workforce participation.